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Oscillation Calculator - Physics Harmonic Motion Calculator

Calculate oscillation parameters including period, frequency, and amplitude for spring-mass systems. Professional physics oscillation calculator with damping analysis.

Intermediate

Oscillation Calculator

Spring-Mass Oscillation Calculation

Oscillation Calculator - Harmonic Motion

This physics calculator helps you calculate oscillation parameters for spring-mass systems including period, frequency, and amplitude. Simple harmonic motion is a fundamental concept in physics.

Oscillation Definition

  • Simple Harmonic Motion: Periodic motion with restoring force proportional to displacement
  • Natural Frequency: ω₀ = √(k/m) (undamped frequency)
  • Period: T = 2π/ω₀ (time for one complete cycle)
  • Frequency: f = ω₀/(2π) (cycles per second)

Oscillation Formulas

  • Natural Frequency: ω₀ = √(k/m)
  • Period: T = 2π/ω₀ = 2π√(m/k)
  • Frequency: f = ω₀/(2π) = (1/2π)√(k/m)
  • Damping Ratio: ζ = c/c_c = c/(2√(mk))
  • Damped Frequency: ω_d = ω₀√(1-ζ²)
  • Maximum Velocity: v_max = Aω₀
  • Maximum Acceleration: a_max = Aω₀²

Applications

  • Mechanics: Springs, pendulums, and vibrating systems
  • Electronics: LC circuits and oscillators
  • Engineering: Vibration analysis and control
  • Acoustics: Sound waves and musical instruments
  • Optics: Light waves and lasers
  • Biology: Heartbeat and circadian rhythms

Important Notes

  • Period is independent of amplitude (for simple harmonic motion)
  • Energy is conserved in undamped systems
  • Damping reduces amplitude over time
  • Critical damping prevents oscillation
  • Resonance occurs at natural frequency

Oscillation Types

  • Undamped: No energy loss, constant amplitude
  • Underdamped: Oscillating with decreasing amplitude
  • Critically Damped: Fastest return to equilibrium
  • Overdamped: Slow return without oscillation
  • Forced: Driven by external force

Oscillation Examples

  • Spring-Mass: Mass on spring
  • Pendulum: Swinging mass
  • LC Circuit: Capacitor and inductor
  • Molecular: Atomic vibrations
  • Structural: Building vibrations

Energy in Oscillation

  • Kinetic Energy: Maximum at equilibrium
  • Potential Energy: Maximum at extremes
  • Total Energy: Constant in undamped system
  • Energy Loss: Due to damping
  • Power Input: Required for forced oscillation

Damping Effects

  • Light Damping: ζ < 1, oscillating decay
  • Critical Damping: ζ = 1, fastest settling
  • Heavy Damping: ζ > 1, no oscillation
  • Logarithmic Decrement: δ = ln(A₁/A₂)
  • Quality Factor: Q = 1/(2ζ)

Resonance

  • Natural Frequency: System's preferred frequency
  • Resonance: Maximum response at natural frequency
  • Bandwidth: Frequency range of significant response
  • Q Factor: Sharpness of resonance peak
  • Phase Shift: 90° at natural frequency